Innovation, Quantum-AI Technology & Law

Blog over Kunstmatige Intelligentie, Quantum, Deep Learning, Blockchain en Big Data Law

Blog over juridische, sociale, ethische en policy aspecten van Kunstmatige Intelligentie, Quantum Computing, Sensing & Communication, Augmented Reality en Robotica, Big Data Wetgeving en Machine Learning Regelgeving. Kennisartikelen inzake de EU AI Act, de Data Governance Act, cloud computing, algoritmes, privacy, virtual reality, blockchain, robotlaw, smart contracts, informatierecht, ICT contracten, online platforms, apps en tools. Europese regels, auteursrecht, chipsrecht, databankrechten en juridische diensten AI recht.

Berichten met de tag FDA
A Brief Quantum Medicine Policy Guide: What Regulators Should Consider for Quantum and AI in Precision Medicine

As quantum technology and artificial intelligence move toward precision medicine, regulators face a problem they have not yet built tools for. A Brief Quantum Medicine Policy Guide—published on the Harvard Petrie-Flom Center's Bill of Health blog by Mauritz Kop, Suzan Slijpen, Katie Liu, Jin-Hee Lee, Constanze Albrecht, and I. Glenn Cohen, and cross-posted with the Stanford Center for Responsible Quantum Technology and the European Commission's European AI Alliance—is a concise map of the use cases, the overlapping legal regimes, and what agencies such as the FDA and EMA should consider. It is a companion to the team's longer treatment of how quantum technologies may be integrated into healthcare, and continues the collaboration later reflected in Kop's work consulting Amgen on quantum biomedical discovery.

Quantum use cases in healthcare

The guide sorts second-generation quantum medicine by domain. Quantum computing and simulation could accelerate de novo drug discovery by modeling molecular interactions, speed genome sequencing, and assist protein-folding prediction; quantum sensing could deliver continuous high-precision vital-sign monitoring, precision laser therapy, and earlier retinal diagnostics; post-quantum cryptography and quantum key distribution could secure patient data in line with HIPAA and GDPR. A recurring thread is the semiconducting quantum dot, whose ability to cross the blood-brain barrier opens possibilities in oncology imaging, targeted drug delivery, and neurodegenerative-disease research. Throughout, the authors keep the claims proportionate, marking many applications as early-stage or theoretical.

A fragmented regulatory map

There is no quantum-specific medical-device law in either the EU or the US. European devices fall mainly under the Medical Devices Regulation, with the EU AI Act and data laws in supporting roles, while CE marking is slowed by a shortage of Notified Bodies versed in AI or quantum. US devices may sit within the existing FDA framework—potentially including the Software-as-a-Medical-Device pathway—alongside HIPAA, the FTC, and standards such as ISO 13485. The guide's first practical counsel is for manufacturers to engage agencies early.

What regulators should build next

The guide names four changes: evaluation protocols attuned to quantum behaviors; risk-management frameworks that protect human subjects from quantum unpredictability; clinical-trial guidelines tailored to quantum devices; and interoperability standards. It then proposes a three-part architecture—ex-ante regulatory sandboxes for quantum-AI devices, ex-durante expert subcommittees, and an ex-post registration database—framed by ten guiding principles, from promoting quantum literacy to fostering institutional plasticity in bodies like the FDA and EMA. The throughline is a standards-first, anticipatory posture: prepare the institutions before the technology arrives, and balance innovation against patient safety rather than choosing between them.

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Law, Ethics and Policy of Quantum & AI in Healthcare and Life Sciences published at Harvard, Stanford and European Commission

A collaborative research initiative by scholars from Stanford, Harvard, and MIT, published by the Petrie-Flom Center at Harvard Law School, the Stanford Center for Responsible Quantum Technology, and the European Commission, delves into the complex regulatory and ethical landscape of integrating quantum technologies and artificial intelligence (AI) into the healthcare and life sciences sectors. This series of policy guides and analyses, authored by an interdisciplinary team including Mauritz Kop, Suzan Slijpen, Katie Liu, Jin-Hee Lee, Constanze Albrecht, and I. Glenn Cohen, offers a comprehensive examination of the transformative potential and inherent challenges of this technological convergence.

Regulating Quantum & AI in Healthcare and Medicine: A Brief Policy Guide

This body of research, examining the entangled legal, ethical, and policy dimensions of integrating quantum technologies and AI into healthcare, is articulated across a series of publications in leading academic and policy forums. These works collaboratively build a comprehensive framework for understanding and navigating the future of medicine. A related policy guide was also published on the European Commission's Futurium platform, further disseminating these findings to a key international policymaking audience. The specific publications include:

1. A Brief Quantum Medicine Policy Guidehttps://blog.petrieflom.law.harvard.edu/2024/12/06/a-brief-quantum-medicine-policy-guide/

2. How Quantum Technologies May Be Integrated Into Healthcare, What Regulators Should Considerhttps://law.stanford.edu/publications/how-quantum-technologies-may-be-integrated-into-healthcare-what-regulators-should-consider/

3. EU and US Regulatory Challenges Facing AI Health Care Innovator Firmshttps://blog.petrieflom.law.harvard.edu/2024/04/04/eu-and-us-regulatory-challenges-facing-ai-health-care-innovator-firms/

4. Regulating Quantum & AI in Healthcare: A Brief Policy Guidehttps://futurium.ec.europa.eu/en/european-ai-alliance/document/regulating-quantum-ai-healthcare-brief-policy-guide

by Mauritz Kop, Suzan Slijpen, Katie Liu, Jin-Hee Lee, Constanze Albrecht & I. Glenn Cohen

Forging the Future of Medicine: A Scholarly Perspective on the Law, Ethics, and Policy of Quantum and AI in Healthcare

The research posits that the fusion of AI with second-generation quantum technologies (2G QT)—which harness quantum-mechanical phenomena like superposition and entanglement—is poised to revolutionize precision medicine. This synergy of quantum computing, sensing and simulation with artificial intelligence promises hyper-personalized healthcare solutions, capable of tackling intricate medical problems that lie beyond the grasp of classical computing. The potential applications are vast, spanning from accelerated drug discovery and development workflows and enhanced diagnostic imaging to rapid genome sequencing and real-time health monitoring. For instance, quantum simulations could model molecular interactions to create more effective pharmaceuticals, while quantum dots may offer novel platforms for targeted cancer therapies and treatments for neurodegenerative conditions by overcoming the blood-brain barrier.

However, the authors caution that these groundbreaking advancements are accompanied by significant ethical, legal, socio-economic, and policy (ELSPI) implications. The emergence of Quantum Artificial Intelligence (QAI), Quantum Machine Learning (QML), and Quantum Large Language Models (QLLM) is expected to amplify these ELSPI concerns. The dual-use nature of these technologies, such as their potential application in gain-of-function research, necessitates a principled and human-centric governance approach.

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Harvard Petrie-Flom publishes EU and US Regulatory Challenges Facing AI Health Care Innovator Firms

Harvard Law School's Petrie-Flom Center has published EU and US Regulatory Challenges Facing AI Health Care Innovator Firms on its Bill of Health blog—an op-ed co-written by lead author Suzan Slijpen, Mauritz Kop (Founder of the Stanford Center for Responsible Quantum Technology), and senior author I. Glenn Cohen, who directs the Center. It examines why firms building artificial intelligence for medicine face such a tangled compliance map, and what a better one might look like.

Two regulatory philosophies, one transatlantic market

The piece sets Europe's cross-sectoral instinct against America's sectoral one. An AI medical product entering the EU must answer to the Medical Device Regulation, the GDPR, and a sweeping digital rulebook that now includes the EU AI Act and the coming European Health Data Space. In the United States, by contrast, coverage is patchy by design: HIPAA reaches only certain entities and data, and the FDA regulates medical AI only where it fits an existing category. Each model has genuine merits and genuine blind spots, and a firm selling on both shores must satisfy both at once.

Where the law strains hardest

The authors are clearest on the cases that resist tidy rules. Adaptive algorithms that keep learning after deployment make it hard to say when a model has changed enough to need fresh review—an area where the FDA's 2023 predetermined-change-control guidance points a constructive way forward. Generative AI overtook the EU AI Act mid-negotiation, unsettling how foundation models are treated under a rulebook drafted before they arrived. And at the material frontier sit quantum- and AI-driven devices, with their export controls, fragile supply chains, dual-use questions, and intellectual-property and security concerns—the bridge from this op-ed to Kop's broader work on the quantum technology governance frontier. The lesson the authors draw is procedural as much as substantive: regulators must understand the tempo of the technology they govern, or risk writing rules that are obsolete before they bind.

Toward a workable middle ground

Rather than crowning a winner, the authors propose a mixed horizontal-vertical approach: keep the precautionary care for patient safety, keep the permissionless capacity to innovate, and tailor the result to the economic realities of health care—from clinical-trial costs to market licenses. Regulation that is sensible, practical, and sector-specific, they argue, serves innovators and patients alike; anything less is rendered ineffective fast. Readers tracking Kop's longer arc on responsible technology can also follow his AIRecht scholar profile, where the through-line from AI in medicine to the law and ethics of the quantum age is laid out across a decade of work.

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Quantum Trials: An FDA for Quantum Technology

What if the United States regulated emerging quantum technology the way it regulates new medicines? That is the provocation at the center of Quantum Trials: An FDA for Quantum Technology, a Stanford Law School working paper by Alexandra Waldherr, I. Glenn Cohen, and Mauritz Kop, posted as a preprint and first presented at the 2023 Stanford Responsible Quantum Technology Conference. The paper proposes a phased, documentation-driven pipeline for second-generation quantum technology, modeled on the FDA's clinical-trials regime.

A phased pipeline for quantum

The framework maps the FDA's four stages onto quantum research and development. Phase I captures a theoretical idea or laboratory proof-of-concept in a concise technical one-pager; Phase II adds a proof-of-principle validation with an ethical checklist; Phase III is a confirmatory stage whose findings are condensed into a Summary of Quantum Characteristics for regulatory assessment; and Phase IV follows the authorized technology through its public lifecycle, with failure reports and audits. Throughout, "efficacy" is reread as technical innovation and "safety" as the absence of unresolved ethical and legal concerns. A binding registry ties the phases together, serving regulators, engineers, educators, and the public from one shared record.

SEA TURTLE and the registry-first first step

Over the phases sits the SEA TURTLE checklist—a six-point barometer distilling the Ten Principles for Responsible Quantum Innovation and the broader Responsible Quantum Technology paradigm into a quick test of whether a technology is both innovative and responsibly developed. Its "SEA" element names a commitment to Safeguarding, Engaging, and Advancing quantum technology, society, and humankind. The authors are realistic about the political capital a full "FDA for Quantum" would demand, so they single out one immediate, low-cost step: making the registration of quantum developments mandatory by law, in the spirit of the legislation that produced clinicaltrials.gov. A standardized registry, they argue, gives regulators the evidence they need to balance underregulation against overregulation.

Why the analogy matters for governance

The deeper argument is structural. A young, dual-use, exponentially developing field is better served by an evidence-generating, phased pipeline than by either premature prohibition or laissez-faire. The same logic animates the authors' work on law, ethics, and policy of quantum and AI in healthcare and the ethics of biomedical discovery in Hippocratic Quantum. The paper does not claim the drug-approval analogy is settled; it invites the physics community to test its feasibility and the legislative branch to adopt, evaluate, and refine it. As an opening move in the design of quantum-specific regulatory institutions, it is less a verdict than a carefully argued invitation.

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Safeguards for accelerated market authorization of vaccines in Europe

by Suzan Slijpen & Mauritz Kop

This article has been published by the Stanford Law School ‘Center for Law and the Biosciences’, Stanford University, 15 March 2021. link to the full text: https://law.stanford.edu/2021/03/15/safeguards-for-accelerated-market-authorization-of-vaccines-in-europe/

Download the article here: Slijpen_Kop_Manufacturing Licenses and Market Authorization Vaccines EU-Stanford Law

The first COVID-19 vaccines have been approved

People around the globe are concerned about safety issues encircling the accelerated introduction of corona vaccines. In this article, we discuss the regulatory safeguards for fast-track market authorization of vaccines in Europe. In addition, we explain how the transmission of European Union law into national Member State legislation works. We then clarify what happens before a drug can be introduced into the European market. We conclude that governments should build bridges of mutual understanding between communities and increase trust in the safety of authorized vaccines across all population groups, using the right messengers.

Drug development normally takes several years

Drug development normally takes several years. The fact that it has been a few months now seems ridiculously short. How is the quality and integrity of the vaccine ensured? That people - on both sides of the Atlantic - are concerned about this is entirely understandable. How does one prevent citizens from being harmed by vaccines and medicines that do not work for everyone, because the admission procedures have been simplified too much?

The purpose of this article is to shed a little light upon the accelerated market authorization procedures on the European continent, with a focus on the situation in the Netherlands.

How a vaccine is introduced into the market

In June 2020, the Dutch government, in close cooperation with Germany, France and Italy, formed a Joint Negotiation Team which, under the watchful eye of the European Commission, has been negotiating with vaccine developers. Its objective: to conclude agreements with drug manufacturers at an early stage about the availability of vaccines for European countries. In case these manufacturers are to succeed in developing a successful vaccine for which the so-called Market Authorization (MA) is granted by EMA or CBG, this could lead to the availability of about 50 million vaccines (for the Netherlands alone).

Who is allowed to produce these vaccines?

Who is allowed to produce these vaccines? The Dutch Medicines Act is very clear about this. Only "market authorization holders" are allowed to manufacture medicines, including vaccines. These are parties that have gone through an extensive application procedure, who demonstrably have a solid pharmaceutical quality management system in place and have obtained a pharmaceutical manufacturing license (the MIA, short for Manufacturing and Importation Authorisation). This license is granted after assessment by the Health and Youth Care Inspectorate of the Ministry of Health, Welfare & Sport (IGJ) – by Farmatec. Farmatec is part of the CIBG, an implementing body of the Ministry of Health, Welfare and Sport (VWS). The M-license is mandatory for parties who prepare, or import medicines.

Read more at the Stanford Center for Law and the Biosciences!

Read more on manufacturing licenses, fast track procedures and market authorization by the European Medicines Agency (EMA) and the EC, harmonisation and unification of EU law, CE-markings, antigenic testing kits, mutations, reinfection, multivalent vaccines, mucosal immunity, Good Manufacturing Practices (GMP), pharmacovigilance, the HERA Incubator, clinical trials, compulsory vaccination regimes and continuous quality control at Stanford!

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Dit zijn de waarborgen bij de versnelde marktintroductie van vaccins

Deze column is gepubliceerd op platform VerderDenken.nl van het Centrum voor Postacademisch Juridisch Onderwijs (CPO) van de Radboud Universiteit Nijmegen. https://www.ru.nl/cpo/verderdenken/columns/waarborgen-versnelde-marktintroductie-vaccins/

De eerste COVID-19 vaccins zijn in zicht

Veel mensen maken zich zorgen over de versnelde introductie van coronavaccins. "Begrijpelijke vragen, begrijpelijke zorgen. Gelukkig is de werkelijkheid een stuk genuanceerder", zegt jurist Suzan Slijpen. In dit artikel gaat zij in op de waarborgen bij de versnelde marktintroductie van vaccins.

De eerste COVID-19 vaccins zijn in zicht. Met effectiviteitsmarges van waarschijnlijk 55% tot 95% gloort er eindelijk licht aan de horizon. Het RIVM bereidt de vaccinatiestrategie alvast voor, zodat er snel geschakeld kan worden als het moment daar is.

Het ontwikkelen van geneesmiddelen duurt normaal enkele jaren

Het ontwikkelen van geneesmiddelen duurt normaal enkele jaren. Dat er nu sprake is van enkele maanden lijkt absurd kort. Hoe zorgt men ervoor dat deze middelen veilig zijn? Dat mensen - aan beide kanten van de Atlantische Oceaan - zich hier zorgen over maken is geheel terecht. Hoe voorkom je dat burgers schade oplopen doordat de vaccins en medicijnen toch niet voor iedereen blijken te werken, omdat de toelatingsprocedures te veel zijn versoepeld?

Hoe een vaccin op de markt wordt gebracht

De Nederlandse regering heeft in nauwe samenwerking met Duitsland, Frankrijk en Italië een Joint Negotiation Team gevormd dat onder leiding van de Europese Commissie onderhandelt met vaccinontwikkelaars. Doel: in een vroeg stadium met producenten afspraken maken over de beschikbaarheid van vaccins voor de Europese landen. Als deze producenten erin slagen om een succesvol vaccin te ontwikkelen waarvoor de zogenaamde Market Authorization (MA) wordt verleend door EMA danwel CBG, zou dat tot een beschikbaarheid van zo’n 50 miljoen vaccins (enkel en alleen al voor Nederland) kunnen leiden.

Wie mogen deze vaccins produceren?

Wie mogen deze vaccins produceren? De Geneesmiddelenwet is er heel duidelijk over. Alleen ‘vergunninghouders’ mogen geneesmiddelen, waaronder vaccins, produceren. Dit zijn marktpartijen die een uitvoerige aanvraagprocedure hebben doorlopen, aantoonbaar beschikken over een gedegen farmaceutisch kwaliteitsmanagement systeem en die - na toetsing door de Inspectie voor de Gezondheidszorg (IGJ) - een zogenaamde F-vergunning (fabrikantenvergunning) hebben verkregen van Farmatec. Farmatec is onderdeel van het CIBG, een uitvoeringsorgaan van het ministerie van Volksgezondheid, Welzijn en Sport (VWS). De F-vergunning is verplicht voor partijen die geneesmiddelen bereiden, doen bereiden of invoeren.

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What are the main requirements for AI systems in Healthcare?

Main barriers to adoptation of Artificial Intelligence in healthcare.

Absence of a specific AI law, or clear legal framework from the perspective of both professional users (A) and patients (B).

When constructing such a framework, it is important to make a distinction between the various sub-areas of healthcare, such as research and development, professional care providers and recipients of care. Because each sub-area has different needs.

Barriers for professional users.

It is simply unclear for companies and private and academic research institutes in the medical sector what is and is not allowed in the field of AI, blockchain, computer & machine vision and robotics. Both at European level and at national level. This knowledge is important for the commodification of their inventions/creations. Two practical examples are permission from Farmatec and obtaining a CE-marking.

Requirements for sustained use of AI in healthcare.

Since traceability and transparency are key within any healthcare (and food-feed) system, blockchain could play an important role in sustained use of AI in healthcare.

A EU AI Directive or Regulation should be able to implement and/or adhere to principles of Eudralex (The body of European Union legislation in the pharmaceutical sector), Good Manufacturing Practices (GMP) and Good Distribution Practices (GDP) in particular.

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